Anticipating Evolutionary Trajectories in Sheet Metal Cutting Using Machine Learning

In the abstract, Sheet metal fabrication is an important component of numerous sectors, necessitating strong quality control methods to assure the integrity of all manufactured products. The current study investigates the use of advanced machine learning algorithms, notably Convolutional Neural Networks (also known as CNNs) or Random Forest, to detect sheet metal faults. The investigation assesses the model's performance in ten distinct fault categories, including wrinkles, oil preserving, die marks, edge cracking, laminated material, buckling, corrosion, fishy eyes, scratching, or tool marks. The evaluation metrics include precision, recall, or F1-score, which provide an in-depth evaluation of the algorithm's ability to properly identify and categorize faults. The results indicate remarkable precision values of over 94% across most classes, showing a low probability of false positives. Furthermore, high recall values, which exceed 95% in certain classes, demonstrate the model's efficacy in collecting a considerable fraction of true positives. The F1 scores regularly exceed 94%, indicating a balanced performance in recall and accuracy for each fault class. Support values give information about the distribution of cases across various categories, including higher support on prevalent issues like Wrinkling or Petroleum Canning. Support proportion numbers provide insight into the relative incidence of each fault in the dataset, which gives a more nuanced view of a model's effectiveness. Macro Average, Weighted Ordinary, or Micro Average measures provide a global view of the model's efficacy across every category, with accuracy frequently above 99%. The findings support the classification model's robustness and reliability in detecting sheet metal defects. The results of this research have important implications regarding enhancing procedures for quality assurance in sheet metal production, paving the way for improved effectiveness or automated fault detection systems.

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Publication Details

Published
2024-11-13
DOI
https://doi.org/10.1109/ictacs62700.2024.10840524
Primary Topic
Advanced machining processes and optimization
Type
article
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article

Anticipating Evolutionary Trajectories in Sheet Metal Cutting Using Machine Learning

Taifa Ayoub Mir
Advanced machining processes and optimization
article

Anticipating Evolutionary Trajectories in Sheet Metal Cutting Using Machine Learning

Taifa Ayoub Mir
article en

Abstract

In the abstract, Sheet metal fabrication is an important component of numerous sectors, necessitating strong quality control methods to assure the integrity of all manufactured products. The current study investigates the use of advanced machine learning algorithms, notably Convolutional Neural Networks (also known as CNNs) or Random Forest, to detect sheet metal faults. The investigation assesses the model's performance in ten distinct fault categories, including wrinkles, oil preserving, die marks, edge cracking, laminated material, buckling, corrosion, fishy eyes, scratching, or tool marks. The evaluation metrics include precision, recall, or F1-score, which provide an in-depth evaluation of the algorithm's ability to properly identify and categorize faults. The results indicate remarkable precision values of over 94% across most classes, showing a low probability of false positives. Furthermore, high recall values, which exceed 95% in certain classes, demonstrate the model's efficacy in collecting a considerable fraction of true positives. The F1 scores regularly exceed 94%, indicating a balanced performance in recall and accuracy for each fault class. Support values give information about the distribution of cases across various categories, including higher support on prevalent issues like Wrinkling or Petroleum Canning. Support proportion numbers provide insight into the relative incidence of each fault in the dataset, which gives a more nuanced view of a model's effectiveness. Macro Average, Weighted Ordinary, or Micro Average measures provide a global view of the model's efficacy across every category, with accuracy frequently above 99%. The findings support the classification model's robustness and reliability in detecting sheet metal defects. The results of this research have important implications regarding enhancing procedures for quality assurance in sheet metal production, paving the way for improved effectiveness or automated fault detection systems.

Chitkara University (IN)
Openalex Percentile: Top 74%
Advanced machining processes and optimization
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